Visualization, Intuition, and Mathematics Metrics as Predictors of Undergraduate Engineering Design Performance

2007 ◽  
Vol 129 (7) ◽  
pp. 735-743 ◽  
Author(s):  
Bruce W. Field

Many undergraduate engineering students perform relatively poorly in design courses, even though they are otherwise academically very strong. Some average students perform exceptionally well in design courses. While there are generally strong correlations between the results that each student gains at university, the design outcomes seem somewhat anomalous. It is hypothesized that some of the variation in relative success at design courses is due to the influence of otherwise unused and unmeasured nonacademic attributes. One clue to the existence of additional attributes exploited in design courses arises from an appreciation of “hemispheric preference,” since many of the special tasks in design projects rely on creativity, holistic problem solving, visualization, and intuition; skills normally associated with the brain’s right hemisphere. Students in the second year of the engineering program at Monash University were tested for spatial skill, and completed a management survey that identified their willingness to use intuition during problem solving. Separately, their grades in a series of mathematics and computing courses were obtained, and the set of results was grouped in a multiple regression against their engineering design grades. Whereas the correlation coefficients for the students’ paired grades in several mathematics and other analytical courses were all high, the correlation coefficient between mathematics and their grade in engineering design was weak, but significant. However, when measures of their spatial skills and their willingness to use intuition were factored with their mathematics grade, the composite score was highly correlated with a student’s design grade. It was concluded that while general academic competence was of prime importance, a student’s spatial skill and their comfort in making assumptions were important factors in predicting their design grade.

Author(s):  
Manjit Singh Sidhu

The evaluation was carried out to examine the distribution of learning styles (discussed in Chapter 2) of the third year undergraduate engineering students and suggest effective problem solving approaches that could increase the motivation and understanding of slow learners at UNITEN. For this study, a sample target population of 60 third year undergraduate engineering students who had taken the Engineering Mechanics subject was tested. These students were selected based on their second year grade point average (GPA) of less than 2.5 as this study emphasizes on slow learners.


Author(s):  
Nasser Saleh ◽  
Andrew Large

Collaborative information behaviour is an emerging area in information science that studies when two or more actors identify, seek, search, and use information to accomplish a task. This paper reports on a recent research investigating the collaborative information behaviour of undergraduate engineering students in the context of engineering design group projects.Le comportement informationnel collaboratif est un sujet émergent en sciences de l’information qui s’intéresse aux moments où deux acteurs ou plus cherchent, repèrent, sélectionnent et utilisent l’information pour accomplir une tâche. Cette communication présente une étude récente sur le comportement informationnel informatif des étudiants en génie dans le contexte de projets de groupe en conception technique.


Author(s):  
A F Hadwin ◽  
M Oshige ◽  
M Miller ◽  
P M Wild

Understanding assigned tasks is an important skill for academic success. However, few studies have explored the accuracy of task understanding as it develops over the duration of a complex assignment. This study examined explicit, implicit, and socio-cultural aspects of task understanding in the context of an design project assigned to a third year class of Mechanical Engineering students. Specifically, this study examined: (1) the agreement between student and instructors task perceptions for the same complex engineering design task, and (2) changes in both instructor's and students' task perceptions from the beginning to the end of the task. Findings indicate that: (1) students' and instructor task-perceptions generally became more attuned over time, (2) instructor task-understanding evolved over time, and (3) socio-contextual aspects of task-understanding were highly correlated with task and course academic achievement.


Author(s):  
Jeffrey R. Mountain

It has been stated that the topic of design is not conducive to assessment by concept inventory. While design problems are more ambiguous than problems in analytical subjects, such as physics, statics, or thermodynamics; the broader design education community of scholars might agree on a set of concepts that are essential to the fundamental understanding of design. Following a review of textbooks, industry interviews, and other literary sources, this paper will propose a set of commonly accepted overarching concepts that might form a nucleus of an engineering design concept inventory. This is intended primarily to initiate a dialog among the design engineering education community about the future development of a design concept inventory and it’s applicability in assessing the design content knowledge of undergraduate engineering students prior to entering the profession as graduate engineers.


Author(s):  
Richard B. Mindek ◽  
Joseph M. Guerrera

Educating engineering students in the appropriate methods for analyzing and problem solving fundamental manufacturing processes is a challenge in undergraduate engineering education, given the increasingly limited room in the curriculum as well as the limited time and resources. Although junior and senior level laboratory courses have traditionally been used as a pedagogical platform for conveying this type of knowledge to undergraduate students, the broad range of manufacturing topics that can be covered along with the limited time within a laboratory course structure has sometimes limited the effectiveness of this approach. At the same time, some undergraduate students require a much deeper knowledge of certain manufacturing topics, practices or research techniques, especially those who may already be working in a manufacturing environment as part of a summer internship or part-time employment. The current work shows how modeling, actual machining tests and problem solving techniques were recently used to analyze a manufacturing process within a senior design project course. Specifically, an Instantaneous Rigid Force Model, originally put forward by Tlusty (1,2) was validated and used to assess cutting forces and the ability to detect tool defects during milling operations. Results from the tests showed that the model accurately predicts cutting forces during milling, but have some variation due to cutter vibration and deflection, which were not considered in the model. It was also confirmed that a defect as small as 0.050 inches by 0.025 inches was consistently detectable at multiple test conditions for a 0.5-inch diameter, 4-flute helical end mill. Based on the results, it is suggested that a force cutting model that includes the effect of cutter vibration be used in future work. The results presented demonstrate a level of knowledge in milling operations analysis beyond what can typically be taught in most undergraduate engineering laboratory courses.


2019 ◽  
Vol 7 (1) ◽  
pp. 26-37 ◽  
Author(s):  
Katona János ◽  
Nagy Kem Gyula

Abstract The nature of 3D ability is deeply considered, but little is known about students’ learning and understandings of technology and about the meaning to become more technologically capable. We considered the spatial intelligence of first-grade engineering students, how much that improved to the effect of 18 times 45 minutes course of computer-aided 3D modeling. We consider the success of our 3D course in spatial intelligence. According to the result of the tests, one-third of the engineer candidates has good spatial intelligence. We introduce some useful problems in 3D education; the presented problems help the students in learning how to solve technology problems, and how to design objects. We offer the intellectual pleasure of problem solving through 3D problems. Our CAD course excellently improves the spatial skills of the middle third of the students. Computer-aided 3D modeling also bridges the gap for students with worse spatial ability. Dealing with students in a more differentiated way about CAD modeling would be advisable.


Author(s):  
Zbigniew M. Bzymek ◽  
Eliot Brown

Abstract In today’s fast growing world, the economy — especially the field of technology and production — are developing very rapidly. Engineering design that would predict the results of this rapid development and equip the society with tools to control them, faces a big challenge. Rapidly developing technology brings many benefits to humanity and makes life easier, friendlier and more comfortable. This has been the case for thousands of years as new branches of engineering were born and came to serve society. One might say that engineers have the privilege of creating a bloodless and peaceful revolution resulting in easier and happier lives for people. At the same time, such fast developing technology creates traps and dangers, and may cause harm. The inventions of Alfred Nobel, Samuel Colt and Eliphalet Remington, for example, or nuclear research have all brought significant technological progress to nations and societies but have also brought harms and disasters affecting both societies and individuals. The role of engineering design is to predict these harmful actions and plan to neutralize or eliminate them, or even change them from harmful into friendly. Such actions follow the way recommended by BTIPS (Brief Theory of Inventive Problem Solving) procedures [1], especially those using the Prediction module [2], [3]. When developing Prevention Engineering a system approach should be observed and hierarchy of systems established and defined. All systems should be designed in such a way that prevents harm to humans and the natural world. Recommendations for introducing Prevention Engineering as a branch of engineering practice, and as an educational and research discipline, should be created as soon as possible, and directions for introducing courses in Prevention Engineering design and practice should also be developed [4]. For example, personal protective equipment for individuals and groups as designed by ME and MEM engineering students in their courses might be considered as Prevention Engineering developments [5]. Defining and formulating Prevention Engineering as a new branch of engineering is necessity in our times. In every step of our lives we face the challenge of preventing harms and destruction that can be done by the contemporary surrounding world. The goal of Prevention Engineering [PE] is to make the world safe. Prevention and safety are connected, prevention is an action, while safety is the condition or state that we are trying to achieve. Preventative actions can be based on the recommendations of BTIPS - Brief Theory of Inventing Problem Solving - and may use BTIPS’s approach [4], [5]. The reasons for the development of PE have already been described [6]. Each of these should be pointed out and preventative measures should be found. Adding these preventative measures to the contemporary engineering research, practice and education, and especially reflecting them in the engineering curriculum would be useful now and will also be necessary in the future [7], [8].


2017 ◽  
Vol 46 (3) ◽  
pp. 274-286 ◽  
Author(s):  
Jacek Uziak ◽  
Ning Fang

Freehand sketching is a fundamental skill in mechanical engineering and many other engineering disciplines. It not only serves as a communication tool among engineers, but plays a critical role in engineering design and problem solving. However, as computer-aided drafting has replaced traditional drawing classes nowadays, the training of students’ freehand sketching skills has been almost completely eliminated in modern engineering curricula. This paper describes the attributes of freehand sketching and its roles in several essential aspects of engineering; in particular, in its roles in problem solving, of which current literature has ignored. Representative examples are provided to show students’ freehand sketching skills in problem solving in a foundational undergraduate mechanical engineering course. Pedagogical suggestions are made on how to teach freehand sketching to engineering students.


1979 ◽  
Vol 101 (4) ◽  
pp. 540-545
Author(s):  
A. Bar-Cohen

Approaches to engineering design education in several developing and developed nations are reviewed and found to suggest widespread recognition of the need for early and frequent student exposure to the pragmatic and often controlling aspects of mechanical system design. In this context, it appears that the undergraduate engineering program at most U.S. Universities may not contribute to the ability of engineering students to pursue successful careers in engineering innovation and design.


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